Responses of turkey vultures to unmanned aircraft systems vary by platform

被引:0
|
作者
Morgan B. Pfeiffer
Bradley F. Blackwell
Thomas W. Seamans
Bruce N. Buckingham
Joshua L. Hoblet
Patrice E. Baumhardt
Travis L. DeVault
Esteban Fernández-Juricic
机构
[1] National Wildlife Research Center,U.S. Department of Agriculture, Animal and Plant Inspection Service, Wildlife Services
[2] Nelson Mandela University,School of Natural Resource Management, George Campus
[3] Purdue University,Department of Biological Sciences
[4] University of Georgia,Savannah River Ecology Laboratory
来源
关键词
D O I
暂无
中图分类号
学科分类号
摘要
A challenge that conservation practitioners face is manipulating behavior of nuisance species. The turkey vulture (Cathartes aura) can cause substantial damage to aircraft if struck. The goal of this study was to assess vulture responses to unmanned aircraft systems (UAS) for use as a possible dispersal tool. Our treatments included three platforms (fixed-wing, multirotor, and a predator-like ornithopter [powered by flapping flight]) and two approach types (30 m overhead or targeted towards a vulture) in an operational context. We evaluated perceived risk as probability of reaction, reaction time, flight-initiation distance (FID), vulture remaining index, and latency to return. Vultures escaped sooner in response to the fixed-wing; however, fewer remained after multirotor treatments. Targeted approaches were perceived as riskier than overhead. Vulture perceived risk was enhanced by flying the multirotor in a targeted approach. We found no effect of our treatments on FID or latency to return. Latency was negatively correlated with UAS speed, perhaps because slower UAS spent more time over the area. Greatest visual saliency followed as: ornithopter, fixed-wing, and multirotor. Despite its appearance, the ornithopter was not effective at dispersing vultures. Because effectiveness varied, multirotor/fixed-wing UAS use should be informed by management goals (immediate dispersal versus latency).
引用
收藏
相关论文
共 50 条
  • [21] A Systems Analysis of the Introduction of Unmanned Aircraft Into Aircraft Carrier Operations
    Ryan, Jason C.
    Cummings, Mary L.
    IEEE TRANSACTIONS ON HUMAN-MACHINE SYSTEMS, 2016, 46 (02) : 209 - 220
  • [22] TAILORED AIRWORTHINESS STANDARDS FOR UNMANNED AIRCRAFT SYSTEMS
    Cook, Stephen P.
    2011 IEEE/AIAA 30TH DIGITAL AVIONICS SYSTEMS CONFERENCE (DASC), 2011,
  • [23] Energy Efficiency in Unmanned Aircraft Systems: A Review
    Babayomi, Oluleke O.
    Makarfi, Abubakar U.
    2019 IEEE PES/IAS POWERAFRICA, 2019, : 569 - 574
  • [24] RESEARCH Noise assessment of Unmanned Aircraft Systems
    Torija Martinez, Antonio J.
    Romero, Carlos Ramos
    Green, Nathan
    Acoustics Bulletin, 2023, 49 (04): : 48 - 51
  • [25] Unmanned Aircraft Systems Challenges in Design for Autonomy
    Valavanis, Kimon P.
    2017 11TH INTERNATIONAL WORKSHOP ON ROBOT MOTION AND CONTROL (ROMOCO), 2017, : 73 - +
  • [26] Unmanned Aircraft Systems Capability Research Priorities
    Maguire, Peter
    Giese, Stefanie
    Carr, David
    Chahl, Javaan
    2013 IEEE INTELLIGENT VEHICLES SYMPOSIUM (IV), 2013, : 708 - 712
  • [27] New guideline for the application of Unmanned Aircraft Systems
    Foken, T.
    Bange, J.
    GEFAHRSTOFFE REINHALTUNG DER LUFT, 2020, 80 (7-8): : 296 - 299
  • [28] Security Strategies for Unmanned Aircraft Systems Networks
    Hernandez, Marco
    Gur, Gurkan
    Namuduri, Kamesh
    2023 IEEE INTERNATIONAL CONFERENCE ON COMMUNICATIONS WORKSHOPS, ICC WORKSHOPS, 2023, : 996 - 1001
  • [29] Sense and avoid technology for unmanned aircraft systems
    McCalmont, John
    Uttt, James
    Deschenes, Michael
    Taylor, Michael
    Sanderson, Richard
    Montgomery, Joel
    Johnson, Randal S.
    McDermott, Dave
    AUTOMATIC TARGET RECOGNITION XVII, 2007, 6566
  • [30] Advances in unmanned aircraft systems technology and applications
    Quirk, Bruce
    Photogrammetric Engineering and Remote Sensing, 2013, 79 (12):